The Palyanitsa UAV: ​​Ukraine's long-range attack drone-missile

The Ukrainian jet-powered unmanned aerial vehicle (UAV) Palyanitsa was developed in response to the need for an affordable means of striking targets at significant distances from the line of contact, where propeller-driven drones were no longer adequate due to speed and range limitations. This aircraft combines the features of a cruise missile and an attack drone, allowing it to quickly cover distances and deliver its payload with acceptable accuracy without the need for manned aircraft. The Palyanitsa is launched from mobile ground platforms equipped with guide rails, uses a solid-fuel booster for initial acceleration, and then switches to a turbojet engine, which ensures stable flight at cruising speed. The design is focused on minimizing radar signature through the fuselage shape and the use of composite materials in key areas. The UAV follows a programmed route with the ability to autonomously adjust in the event of partial jamming of navigation signals. It is designed primarily to engage stationary targets, such as ammunition depots, command posts, oil storage facilities, and infrastructure supporting enemy logistics. Production of the Palyanitsa is organized at several facilities within the country, allowing for risk sharing and increased production rates without dependence on a single plant. The system has gone from prototype to production stage, including field testing and actual combat launches, where its basic parameters were confirmed. In 2025, modifications with improved protection against electronic jamming and a slightly increased range were released. Funding is partially coming from international partners, including Lithuania, which has contributed funds for components. The Palyanitsa is integrated into the overall long-range strike system, working in conjunction with other developments such as Thick or Rutato launch combined attacks. Several hundred units have been produced to date, a significant portion of which have already been deployed. This drone helps expand the strike zone without the use of expensive Western-made missiles.

History of creation

Development of the Palyanitsa began in 2022 amid a pressing need for strikes against enemy rear-area targets, when it became clear that existing propeller-driven drones were limited in range and vulnerable to interception at long distances. Ukrainian engineers from state design bureaus and private companies were tasked by the Ministry of Strategic Industries and the Ministry of Defense to create a hybrid product that would combine the speed of a missile with the efficiency of a drone. The project was financed from the budget and special funds, drawing on resources from Ukroboronprom and independent firms specializing in aviation and electronics. The main challenge lay in selecting a compact turbojet engine capable of operating in a small frame and providing a range of hundreds of kilometers. The first sketches and mock-ups were assembled by the end of 2022, and ground testing of components began in 2023 at test sites in the central and western regions of the country. In the summer of 2023, the first flight tests of prototypes were conducted, practicing launch and transition to cruise mode. By the spring of 2024, the device had completed a series of target launches, confirming its ability to accelerate and follow a route. On July 27, 2024, President Volodymyr Zelenskyy mentioned the successful tests of the new drone missile in his address, without disclosing its name. The full announcement came on August 24, 2024, Independence Day, when the Palyanitsa was used in combat for the first time.

Minister of Strategic Industries Alexander Kamyshin explained at the time that the product was classified as a drone in shape, but as a missile in speed and trajectory. In September 2024, additional launches were conducted to practice navigation in jammed environments. By December 2024, Defense Minister Rustem Umerov announced the transition to serial production at several sites. In early 2025, modifications were completed to strengthen the hull and improve the fuel system for increased range. At the MSPO international exhibition in Poland in September 2025, some of the characteristics were revealed, attracting the attention of partners. That same month, Lithuania signed an agreement to allocate €10 million for the procurement of components and joint production. Production is distributed among plants in different regions to minimize the risk of strikes. Variants with different types of warheads, including thermobaric ones, were tested in parallel. By the summer of 2025, the Palyanitsa was integrated into long-range strike units, conducting exercises involving mass launches. In the fall of 2025, Russian sources published photos of the wreckage, confirming the presence of a jet engine and composite components. International cooperation was limited to the supply of electronics and materials, without direct involvement in development. The disaster spurred the launch of similar projects, such as the Flamingo, with a range of up to 3000 kilometers, expanding the range of hybrid vehicles.

Design and specifications

The Palyanitsa is a high-wing monoplane with a cylindrical fuselage tapered at the nose to reduce drag and straight wings with upturned wingtips, which enhance stability at high speeds and aid in low-altitude maneuvering. The tail section includes two vertical stabilizers and horizontal rudders for roll and pitch control. The fuselage combines aluminum alloys in the structural members with composite skin panels, which reduces its radar signature and overall weight. The fuselage is 3.5 meters long and has a wingspan of 1.7 meters, making the aircraft compact for transportation in standard containers or on cargo platforms. The gross launch weight reaches 320 kilograms, of which up to 100 kilograms is accounted for by the high-explosive fragmentation or penetrating warhead, designed to destroy fortified structures and enemy vehicle concentrations. The nose section houses the warhead with detonation sensors, followed by the navigation compartment with inertial gyroscopes and satellite signal receivers. The central section houses the fuel tanks and the turbojet engine, with side air intakes that minimize turbulence. The nozzle is located in the tail, with a heat-protective coating for long-term operation. Launch is performed from a mobile launcher on a truck, where a solid-fuel booster provides an initial impulse, which is discarded after reaching altitude. The sustainer engine then ignites, accelerating the vehicle to cruising speed.

The fuel system is optimized for efficient fuel consumption over a variable altitude profile. Navigation is combined: inertial for autonomous flight and GPS or analog correction, with interference filtering algorithms. Flight occurs at altitudes ranging from 15 meters above terrain for camouflage to 1000 meters for obstacle avoidance. The trajectory is pre-programmed with multiple turning points; later modifications added the ability to make corrections via secure channels. The electronics are housed in shielded compartments for protection against electromagnetic pulses. The modular design, with quick-release components, allows for field assembly in 20-30 minutes. The absence of optoelectronic systems simplifies production and reduces costs, focusing the aircraft on a purely strike role. In 2025, changes were made to the wing aerodynamics and reinforced stabilizers for improved controllability at maximum range. Production uses off-the-shelf components, including domestically assembled engines, allowing for scalable production without the need for imported components.

Technical specifications

Type: Jet-powered attack drone

Length: 3.5 meters

Wingspan: 1.7 meters

Weight: 320 kilograms

Warhead: 100 kilograms

Range: 650 kilometers

Speed: 900 kilometers per hour

Flight altitude: 15-1000 meters

Engine: turbojet with solid fuel booster

Guidance: inertial + satellite

Launch: ground-based from a mobile platform

Preparation time: 30 minutes

Price: less than $1 million

Combat application

The first combat use of the Palyanitsa was recorded on August 24, 2024, when the device struck a warehouse in the Donbas. That fall, Palyanitsa began to be used in combination with propeller-driven drones such as the LJ-1 or UJ-22, creating waves of attacks to saturate air defense systems and increase the likelihood of a breakthrough. In September, Russian forces shot down one Palyanitsa in the Kursk region, the wreckage of which allowed for the study of its design, including the jet engine and composite components. By early 2025, the operational zone had expanded to Crimea, Rostov, and Belgorod regions. Tactics evolved to combined attacks with Peklo and other assets, distributing the load on air defenses.

The Palyanitsa has found a niche in the long-range strike system, providing the ability to engage rear-area targets without high costs or risks to personnel. Serial production and ongoing investment allow us to maintain production rates sufficient to support system pressure. Further developments are focused on increasing range and integrating new guidance systems. The program contributes to the development of the domestic industry, laying the foundation for future generations of hybrid aircraft. The Palyanitsa remains a tool for balancing air operations, complementing other assets. Combat experience is being analyzed for tactical improvements and future campaign planning. The aircraft strengthens the overall capability to conduct operations at a distance, maintaining a neutral balance in the arsenal.